P‐7.3: Numerical modeling of GaN growth by MOCVD on metal substrate

Author:

Fang Xiubo1,Pan Kui1,Xia Tianwen1,Chen Qinzhong2,Zhang Ke2,Hou Qinglong2,Wu Yongsheng3,Liu Hengshan3,Sun Jie14,Yan Qun15,Guo Tailiang1

Affiliation:

1. National and Local United Engineering Laboratory of Flat Panel Display Technology, College of Physics and Information Engineering Fuzhou University, and Fujian Science & Technology Innovation Laboratory for Optoelectronic Information of China Fuzhou China 350100

2. Fujian Acetron New Materials Co. Ltd Fuzhou China 350000

3. Fujian Prima Optoelectronics Co., Ltd. Fuzhou China 350000

4. Quantum Device Physics Laboratory, Department of Microtechnology and Nanoscience Chalmers University of Technology Gothenburg Sweden 41296

5. Rich Sense Electronics Technology Inc. Jinjiang China 362200

Abstract

GaN materials have attracted great interest and have demonstrated remarkable potential in many fields. When growing GaN materials, substrate selection is of great importance. By virtue of their nominally unlimited size, easy removal, and excellent thermal conduction, metal substrates have been suggested as an alternative to the commonly used substrates such as sapphire. GaN growth on metal substrates, however, is still quite rare, and many aspects remain unexplored. This paper uses computational fluid dynamics to perform a three‐dimensional numerical simulation of the GaN‐ MOCVD reaction chamber. We investigated the influence of the graphite containers' rotational velocity and the metal matrix's temperature at various locations. When the pressure within the MOCVD chamber remains constant, increasing the graphite tray's rotational velocity enhances the temperature field distribution within the chamber. However, the flow field becomes unstable when the rotation rate exceeds 1000 rpm. Our findings serve as a crucial benchmark for the future parameter optimization of MOCVD growth of GaN on metals.

Publisher

Wiley

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